The distribution of <i>GAD67</i>‐mRNA in the adult zebrafish (teleost) forebrain reveals a prosomeric pattern and suggests previously unidentified homologies to tetrapods

Mueller, Thomas; Guo, Su

doi:10.1002/cne.22122

Cited by 113 publications

(186 citation statements)

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“…The cells formed in proliferative (PCNAcontained) diencephalic zones migrate to preglomerular area, where their further differentiation and growth take place. The presence of D 1 and D 2 dopamine receptors [6,8] and benzodiazepine receptors B type [9] in these nuclei in the teleost fishes brain confirms these idea. The period of the blood-brain barrier shaping, during the first year of life [10] in the salmon brain may be considered as a critical stage of the paracrine interrelations predominance in the salmon brain.…”

Section: Participation Of Classical Neurotransmiters In Postembrionicsupporting

confidence: 63%

Interaction of Atoms with Grain Surfaces in Steel: Periodic Dependence of Binding Energy on Atomic Number and Influence on Wear Resistance

Пущина¹,

Обухов²

2012

ENG

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The data of our investigations contribute to understanding of cellular mechanisms of the teleost fishes CNS forming in postembryonic development. The revealed peculiarities of structural and neurochemical organization and description of basic histogenetic processes (proliferation, migration and neuronal cell differentiation) during the brain forming in fish, which have signs of fetal organization, widen the existing knowledge about histogenesis of these structures in postembryonic development. It seems conceivable, that during postembrional development in teleost fishes some neurotransmitters and gaseous mediators (NO and H 2 S) act as factors, which initiate and regulate the cellular and the tissues processes of genetic program during the brain development. Materials of this investigation define a new experimental model for studying of postembrional neurogenesis processes.

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Section: Participation Of Classical Neurotransmiters In Postembrionicsupporting

confidence: 63%

Interaction of Atoms with Grain Surfaces in Steel: Periodic Dependence of Binding Energy on Atomic Number and Influence on Wear Resistance

Пущина¹,

Обухов²

2012

ENG

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“…blAMY: basolateral amygdala; BNST: bed nucleus of the stria terminalis; HIP: hippocampus; meAMY: medial amygdala; POA: preoptic area; STR: striatum. References: Mammals: Stoykova and Gruss, 1994;Gao and Moore, 1996;Fernandez et al, 1998;Eisenstat et al, 1999;Puelles et al, 2000;Tamamaki et al, 2003;Flames et al, 2007;Garcia-Lopez et al, 2008;Bird: Fernandez et al, 1998;Puelles et al, 2000;Bardet et al, 2010;Reptile: Fernandez et al, 1998;Metin et al, 2007;Moreno et al, 2010;Amphibians: Brox et al, 2003Gonzalez, 2007c, Moreno et al, 2008;Teleosts: Mueller et al, 2008;Alunni et al, 2004;Menuet et al, 2007;Mueller and Guo, 2009. specifically in this nucleus. However, female salamanders exposed to male pheromones show increased c-fos expression in this region (Laberge et al, 2008), suggesting a conserved role for this region in processing social olfactory information.…”

Section: Amphibiansmentioning

confidence: 99%

The Vertebrate mesolimbic reward system and social behavior network: A comparative synthesis

O’Connell

Hofmann

2011

J of Comparative Neurology

873

879

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All animals evaluate the salience of external stimuli and integrate them with internal physiological information into adaptive behavior. Natural and sexual selection impinge on these processes, yet our understanding of behavioral decision-making mechanisms and their evolution is still very limited. Insights from mammals indicate that two neural circuits are of crucial importance in this context: the social behavior network and the mesolimbic reward system. Here we review evidence from neurochemical, tract-tracing, developmental, and functional lesion/stimulation studies that delineates homology relationships for most of the nodes of these two circuits across the five major vertebrate lineages: mammals, birds, reptiles, amphibians, and teleost fish. We provide for the first time a comprehensive comparative analysis of the two neural circuits and conclude that they were already present in early vertebrates. We also propose that these circuits form a larger social decision-making (SDM) network that regulates adaptive behavior. Our synthesis thus provides an important foundation for understanding the evolution of the neural mechanisms underlying reward processing and behavioral regulation. J. Comp. Neurol. 519:3599-3639, 2011. INDEXING TERMS: social behavior; comparative neuroanatomy; amphibian; reptile; bird; teleost; reward system; social behavior network; limbic system; neural circuitsThroughout their lives, all animals constantly face situations that provide either challenges (e.g., aggression, predation) or opportunities (e.g., reproduction, foraging, habitat selection) (for a detailed review, see O'Connell and Hofmann, 2011). In all cases, environmental cues are processed by sensory systems into a meaningful biological signal while internal physiological cues (e.g., condition, maturity) and prior experience are integrated at the same time. This process usually results in behavioral actions that are adaptive, i.e., beneficial to the animal. To accomplish this, an animal's nervous system must evaluate the salience of a stimulus and elicit a context-appropriate behavioral response. Despite tremendous progress in understanding the ecology and evolution of social behavior (Lorenz, 1952;Tinbergen, 1963;Lehrman, 1965;von Frisch, 1967;Krebs and Davies, 1993;Stephens, 2008), it is less understood where in the brain these decisions (e.g., about mate choice or territory defense) are made and how these brain circuits have arisen over the course of vertebrate evolution.Recent research has begun to decipher the neural basis of social decision-making. In mammals in particular, the neural circuits that evaluate stimulus salience and/or regulate social behavior have been uncovered to some degree: the mesolimbic reward system and social behavior network (Fig. 1). It is becoming increasingly clear that the reward system (including but not limited to the midbrain dopaminergic system) is the neural circuit where the salience of an external stimulus is evaluated (Deco and Rolls, 2005;Wickens et al., 2007), as appetitive beh...

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“…The dashed line separates the dorsal telencephalon (pallium) and ventral telencephalon (subpallium, blue). Subpallium includes the potential homologue of mammalian BG based on GAD67-mRNA labelling [5]. The EN (green) is the homologue of the globus pallidus internal segment [4].…”

Section: (C) Habenula: the Dorsal Diencephalonmentioning

confidence: 99%

Zebrafish forebrain and temporal conditioning

Cheng

Jesuthasan

Penney

2014

Phil. Trans. R. Soc. B

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The rise of zebrafish as a neuroscience research model organism, in conjunction with recent progress in single-cell resolution whole-brain imaging of larval zebrafish, opens a new window of opportunity for research on interval timing. In this article, we review zebrafish neuroanatomy and neuromodulatory systems, with particular focus on identifying homologies between the zebrafish forebrain and the mammalian forebrain. The neuroanatomical and neurochemical basis of interval timing is summarized with emphasis on the potential of using zebrafish to reveal the neural circuits for interval timing. The behavioural repertoire of larval zebrafish is reviewed and we demonstrate that larval zebrafish are capable of expecting a stimulus at a precise time point with minimal training. In conclusion, we propose that interval timing research using zebrafish and whole-brain calcium imaging at single-cell resolution will contribute to our understanding of how timing and time perception originate in the vertebrate brain from the level of single cells to circuits.

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The distribution of GAD67‐mRNA in the adult zebrafish (teleost) forebrain reveals a prosomeric pattern and suggests previously unidentified homologies to tetrapods

Cited by 113 publications

References 56 publications

Interaction of Atoms with Grain Surfaces in Steel: Periodic Dependence of Binding Energy on Atomic Number and Influence on Wear Resistance

Interaction of Atoms with Grain Surfaces in Steel: Periodic Dependence of Binding Energy on Atomic Number and Influence on Wear Resistance

The Vertebrate mesolimbic reward system and social behavior network: A comparative synthesis

Zebrafish forebrain and temporal conditioning

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